How intertidal species survive their harsh environment and how best to evaluate and
forecast range shifts in species distribution are two important and closely related questions …

Understanding how species adapt to different temperatures is crucial to predict their
response to global warming, and thermal performance curves (TPCs) have been employed …

Understanding the combined effects of environmental heterogeneity and evolutionary
processes on marine populations is a primary goal of seascape genomic approaches. Here …

Marine animals are challenged by chronically raised temperatures alongside an increased
frequency of discrete, severe warming events. Exposure to repeated heat shocks could …

Temperature significantly impacts ectotherm physiology, with thermal tolerance and
metabolic traits typically varying with latitude across species ranges. The drivers of this …

Phenotypic plasticity, the ability of a single genotype to produce different phenotypes under
different environmental conditions, plays a profound role in several areas of evolutionary …

Thermal performance curves (TPCs) provide a framework for understanding the effects of
temperature on ectotherm performance and fitness. TPCs are often used to test hypotheses …

Anthropogenic climate change is causing rising average temperatures and increased
thermal variability across aquatic environments. These impacts may be particularly …

Rising sea surface temperatures and ocean acidification present profound challenges for
many marine species, leading to cascading effects on ecosystem functionality and food …

Global climate change will likely impose selective pressures on biodiversity to not only
increase limits for environmental stress, but the phenotypic plasticity of those limits. While we …